Finite Element Methods and Domain Decomposition
Course offered :
- Current semester
- Next semester
Course offered by
| Number of credits | 10 |
| Course offered (semester) | Autumn. |
| Schedule | Schedule |
| Reading list | Reading list |
Language of Instruction
English
Pre-requirements
None
Learning Outcomes
After completing the course, students will be able to:
- Formulate typical boundary value problems for elliptic equations in variational form that satisfies the conditions of the Lax-Milgram theorem.
- Discretize boundary value problems using the Galerkin approximation with the classic finite element methods.
- Develop simple programs in MATLAB to form systems of linear equations that approximates elliptic equations with finite element methods.
- Apply the theory of Hilbert spaces and polynomial approximation to prove the convergence of the finite element method.
- Use the multigrid method domain decomposition techniques for solving large systems of linear equations.
Contact Information
advice@math.uib.no
Course offered (semester)
Autumn.
Language of Instruction
English
Aim and Content
The course considers the theory for finite element method to discrete partial differential equations, especially elliptical, and also solution techniques for the discrete equation system that become result. Domain decomposition as solving technique will become subject to special attention.
Learning Outcomes
After completing the course, students will be able to:
- Formulate typical boundary value problems for elliptic equations in variational form that satisfies the conditions of the Lax-Milgram theorem.
- Discretize boundary value problems using the Galerkin approximation with the classic finite element methods.
- Develop simple programs in MATLAB to form systems of linear equations that approximates elliptic equations with finite element methods.
- Apply the theory of Hilbert spaces and polynomial approximation to prove the convergence of the finite element method.
- Use the multigrid method domain decomposition techniques for solving large systems of linear equations.
Pre-requirements
None
Recommended previous knowledge
MAT260 Scientific Computing 2 and MAT232 Functional Analysis
Assessment methods
Written exam. If less than 20 students are taking the course, the exam may change to an oral examination.
Grading Scale
The grading scale used is A to F. Grade A is the highest passing grade in the grading scale, grade F is a fail.
Contact Information
advice@math.uib.no